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BBEPP has built up a significant expertise on gas fermentation and cultivation of acetogenic and Knallgas bacteria through several private collaborations with Arcelor Mittal, e.g., Valorco project and in an ISPT project with Syngip, Arcelor Mittal and Dow. Although the content of these private projects is confidential, the general experience gained will be helpful in the work aimed for in the proposed work. In addition, BBEPP is also involved in several European funded consortium based gas fermentation projects. In the BIOCONCO2 project, BBEPP is responsible for the construction mobile gas fermentation unit to be put on site at waste gas emitters and to convert these CO<sub>2</sub>-rich gases into chemical building blocks. In the BIOSFERA project, biogenic residues and wastes will be gasified and the syngas will be fermented using acetogenic bacteria to produce acetate which will be converted in a second fermentation process to bio-based triacylglycerides (TAGs). In the CO2SMOS project, biogenic CO<sub>2</sub> emissions and renewable H<sub>2</sub> are converted by innovative biotechnological and intensified chemical conversion process to develop the production of several bio-based fine and commodity chemicals (2,3-butanediol, long chain dicarboxylic acids, benzene, cyclic carbonates and polyhydroxyalkanoates). | BBEPP has built up a significant expertise on gas fermentation and cultivation of acetogenic and Knallgas bacteria through several private collaborations with Arcelor Mittal, e.g., Valorco project and in an ISPT project with Syngip, Arcelor Mittal and Dow. Although the content of these private projects is confidential, the general experience gained will be helpful in the work aimed for in the proposed work. In addition, BBEPP is also involved in several European funded consortium based gas fermentation projects. In the BIOCONCO2 project, BBEPP is responsible for the construction mobile gas fermentation unit to be put on site at waste gas emitters and to convert these CO<sub>2</sub>-rich gases into chemical building blocks. In the BIOSFERA project, biogenic residues and wastes will be gasified and the syngas will be fermented using acetogenic bacteria to produce acetate which will be converted in a second fermentation process to bio-based triacylglycerides (TAGs). In the CO2SMOS project, biogenic CO<sub>2</sub> emissions and renewable H<sub>2</sub> are converted by innovative biotechnological and intensified chemical conversion process to develop the production of several bio-based fine and commodity chemicals (2,3-butanediol, long chain dicarboxylic acids, benzene, cyclic carbonates and polyhydroxyalkanoates). | ||
=== Universidade La Coruña - BIOENGIN group === | === Universidade La Coruña - BIOENGIN group === | ||
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Kennes@udc.es|Webpage=http://bioengingroup.es|Technology name=Bioconversion/fermentation process|Capacity=not relevant|TRL=1-6|Atmosphere=not relevant|Nutrients=not relevant|pH=not relevant|Pressure=not relevant|Temperature=10 - 70|Other=not relevant|Feedstock=CO2, CO, syngas (CO, H2, CO2, N2), industrial emissions (e.g., steel industry, refinery, biogas plant)|Product=Ethanol, Butanol, Hexanol, Carboxylic acids (e.g., acetic, butyric, caproic, caprylic), Lactic acid, Formic acid, Biopolymers (PHA, PHB), 2,3-Butanediol, Acetone, Proteins (SCP)|Image=Logo_Universidade_de_Coruna.png}} | Kennes@udc.es|Webpage=http://bioengingroup.es|Technology name=Bioconversion/fermentation process|Capacity=not relevant|TRL=1-6|Atmosphere=not relevant|Nutrients=not relevant|pH=not relevant|Pressure=not relevant|Temperature=10 - 70|Other=not relevant|Feedstock=CO2, CO, syngas (CO, H2, CO2, N2), industrial emissions (e.g., steel industry, refinery, biogas plant)|Product=Ethanol, Butanol, Hexanol, Carboxylic acids (e.g., acetic, butyric, caproic, caprylic), Lactic acid, Formic acid, Biopolymers (PHA, PHB), 2,3-Butanediol, Acetone, Proteins (SCP)|Image=Logo_Universidade_de_Coruna.png}} | ||
<ref>{{Cite book|author=Kennes C and Veiga MC|year=2013|editor=Kennes C and Veiga MC|book_title=Air pollution prevention and control : bioreactors and bioenergy, 549 pp,|publisher=John Wiley & Sons|place=Chichester, United Kingdom|ISBN=978-1-119-94331-0}}</ref>BIOENGIN group at UDC has been working for more than a decade on the optimization of many different kinds of bioreactors for gas treatment and bioconversion, both at lab-scale and at pilot/industrial-scale (conventional stirred tank fermentors, biofilters, biotrickling filters, bioscrubbers, airlift bioreactors, etc.) (Kennes and Veiga, 2013). Over the recent past it has been largely been developing and optimizing bioreactors for CO2, CO and syngas fermentation, both with native and engineered pure cultures as well as with mixed consortia. | <ref>{{Cite book|author=Kennes C and Veiga MC|year=2013|editor=Kennes C and Veiga MC|book_title=Air pollution prevention and control : bioreactors and bioenergy, 549 pp,|publisher=John Wiley & Sons|place=Chichester, United Kingdom|ISBN=978-1-119-94331-0}}</ref>BIOENGIN group at UDC has been working for more than a decade on the optimization of many different kinds of bioreactors for gas treatment and bioconversion, both at lab-scale and at pilot/industrial-scale (conventional stirred tank fermentors, biofilters, biotrickling filters, bioscrubbers, airlift bioreactors, etc.) (Kennes and Veiga, 2013). Over the recent past it has been largely been developing and optimizing bioreactors for CO2, CO and syngas fermentation, both with native and engineered pure cultures as well as with mixed consortia. | ||
== Open access pilot and demo facility providers == | == Open access pilot and demo facility providers == |